Journal Information
Vol. 107. Issue 4.
Pages 284-293 (May 2016)
Vol. 107. Issue 4.
Pages 284-293 (May 2016)
DOI: 10.1016/j.adengl.2016.02.016
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Update on the Use of Ultrasound in Vascular Anomalies
Actualización en ecografía de las anomalías vasculares
F. Alfageme Roldána,
Corresponding author

Corresponding author.
, I. Salgüero Fernándeza, F. Zamanta Muñoz Garzab, G. Roustán Gullóna
a Servicio de Dermatología, Hospital Universitario Puerta de Hierro Majadahonda, Madrid, Spain
b Servicio de Dermatología, Hospital de la Santa Creu i Sant Pau, Barcelona, Spain
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Figures (7)
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Tables (6)
Table 1. Modified Mulliken-Glowacki Classification.
Table 2. Ultrasound Characteristics of Hemangiomas.
Table 3. Ultrasound Characteristics of Venous Malformations.
Table 4. Ultrasound Characteristics of Capillary Malformations.
Table 5. Ultrasound Characteristics of Lymphatic Malformations.
Table 6. Ultrasound Characteristics of Arteriovenous Malformations.
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Additional material (1)

Advances in our understanding of the biology and therapy of vascular anomalies have made this condition a common reason for consulting a dermatologist. In addition, multidisciplinary units have been created to manage patients with complex vascular anomalies. Although most vascular anomalies are diagnosed based on clinical findings, a thorough evaluation often requires additional imaging tests to determine the nature, extension, and prognosis of these lesions. Because it is fast and noninvasive, ultrasound is usually the first imaging test ordered. In the present review, we provide a state-of-the-art synthesis of key concepts in the ultrasound examination of vascular anomalies so that they are more accessible to clinicians and medical imaging specialists involved in the management of these lesions.

Vascular anomalies
Dermatologic ultrasound

El avance en el conocimiento de la biología y la terapéutica de las anomalías vasculares (AV) han hecho que sean un motivo frecuente de consulta en las consultas de dermatología en la actualidad, y que se hayan creado unidades multidisciplinares para el abordaje de los pacientes con AV complejas.

Aunque el diagnóstico de la mayoría de las AV es clínico, a menudo su estudio completo requiere pruebas complementarias de imagen para determinar su naturaleza, extensión y pronóstico. La primera prueba de imagen que se solicita por su rapidez e inocuidad es la ecografía (US).

En esta revisión se busca resumir y actualizar los conceptos clave en la ecografía de las AV para su mejor comprensión para los clínicos o especialistas en imagen que tratan a estos pacientes.

Palabras clave:
Anomalías vasculares
Ecografía dermatológica
Full Text

Since the publication in 1999 by Dubois et al.1 of the ultrasound characteristics of vascular soft tissue tumors, rapid progress has been made in this field of dermatology. Examples of this progress include:

  • 1)

    Definitive adoption of the classification of vascular anomalies (VAs) published by the International Society for the Study of Vascular Anomalies and updated yearly2

  • 2)

    Description of the mutations in syndromes that accompany these VAs3

  • 3)

    Generalized use of propranolol as first-line treatment of hemangiomas4

  • 4)

    Advances in vascular treatments based on lasers and other light sources5

  • 5)

    The creation of multidisciplinary units for the integrated treatment of these anomalies6

Ultrasound imaging is usually the first diagnostic test performed on patients with VA given that it is harmless, quick, and readily available in many centers both in primary care and specialist care.7

In view of the above, the multidisciplinary teams that attend these patients should have a clear understanding of the concepts used in ultrasound imaging of VAs, and the applications and limitations of this technique.

General Considerations in Ultrasound Imaging of Vascular Anomalies

From the hemodynamic point of view, VAs are classified as high- or low-flow anomalies.8,9

This distinction is important from the diagnostic and therapeutic point of view, as a preference for pharmacological treatment, surgery, different types of laser therapy, or sclerotherapy, will depend on the hemodynamic characteristics of the lesion (Table 1).

Table 1.

Modified Mulliken-Glowacki Classification.

Vascular Tumors  Vascular Malformations 
Hemangiomas  High flow 
Infantile hemangiomas  Arteriovenous malformations 
Noninvoluting congenital hemangioma (NICH)  Arteriovenous fistulas 
Rapidly involuting congenital hemangioma (RICH)   
Others  Low flow 
Kaposiform hemangioendothelioma  Venous malformation 
Tufted angioma  Capillary malformation 
Angiosarcoma  Mixed malformations 

In ultrasound imaging of VAs, B mode (grey scale) and Doppler characterization are essential.

B mode imaging is used to define the lesion profile; for example, lesions with a solid appearance in ultrasound imaging are usually vascular tumors, whereas malformations consist of elements with a sponge-like appearance.

Doppler imaging of VAs should always be done in color or power Doppler mode, as well as in pulsed or spectral Doppler mode.

Color Doppler imaging provides information on the presence of blood flow. Pulsed Doppler imaging reveals information on the hemodynamic characteristics of the vessels of the anomaly.

High-flow VAs are defined as those anomalies with an arterial Doppler spectrum, whether of high or low resistance (Fig. 1).

Figure 1.

High-flow spectrum. A, Biphasic spectrum B, Triphasic spectrum.


Low-flow VAs correspond to anomalies in which we find phasic flow patterns (as in venous vessels) or the absence of flow (Fig. 2).

Figure 2.

Low-flow venous spectrum.


At least 3 flow cycles the peak systolic velocity in the lesions and fully characterize them.9

The hemodynamic parameter most frequently assessed in vascular lesions is the resistance index (RI), which is the difference between peak systolic velocity and end-diastolic velocity divided by peak systolic velocity.10 This parameter provides information on the vascular resistance in the vascular bed being studied.

HemangiomasInfantile Hemangiomas

Infantile hemangiomas are the most common vascular tumors in children, with an incidence of between 4% and 10%.11 They occur more frequently in white girls and most are sporadic. In general, they are not present at birth and progress in 3 characteristic phases. The first is a proliferative phase that lasts for the first 6 months of life, followed by a stabilization phase during the first year. Finally, there is an involuting phase that lasts until 5 to 7 years of age.

These are benign lesions with a favorable outcome and most do not require treatment. However, in 10% of cases, complications may occur, such as ulceration and life-threatening functional alterations, for example airway hemangiomas.

In these cases, propranolol, a nonselective β-blocker, has become the treatment of choice.12 The mechanisms of action that have been proposed include vasoconstriction, angiogenesis inhibition, and endothelial cell apoptosis.13

In general, diagnosis of infantile hemangiomas is clinical, but occasionally, due to the site or involvement of vital structures, complementary studies such as ultrasound imaging, computed tomography (CT), or magnetic resonance imaging (MRI) are required.14

Both CT and MRI generate anatomical information such as exact delimitation of the borders and size and determination of the proximity to adjacent structures. However, these techniques have certain drawbacks such as the need for sedation in children or the need for contrast agents that emit radiation, not to mention the high cost. CT is a reliable method for assessing bone and erosive structures. MRI is considered the method of choice for the study of cervicofacial hemangiomas to rule out posterior fossa malformations–hemangiomas–arterial anomalies–cardiac defects–eye abnormalities–sternal cleft and supraumbilical raphe syndrome (commonly known as PHACES syndrome).15

Ultrasound imaging is a noninvasive method that can be performed in an outpatient setting. The study provides immediate results and sedation is not required, although some authors are including sedation with chloral hydrate in their daily practice to reduce artifacts when performing the Doppler study.16,17 Spierer et al.18 established diagnosis in 20 patients with periorbital infantile hemangiomas without resorting to other imaging studies. The authors considered the technique the method of choice for detecting infantile hemangiomas in children.

Ultrasound Imaging in Infantile Hemangiomas

Ultrasound imaging is currently the method of choice for assessing infantile hemangiomas because the technique allows measurement of the size, thickness, internal characteristics, and vascularization of the lesion, while involvement of adjacent anatomical structures can also be assessed.18

Infantile hemangiomas have different ultrasound patterns (Table 2), depending on the clinical phase. In the proliferative phase, in B mode, a well-defined solid, hypoechoic tumor mass is observed with a lobulated, homogeneous stroma. The color Doppler image is characterized by hypervascular lesions, with a vessel density>5 vessels/cm2 and a systolic Doppler shift >2kHz and a low resistive index (RI).19

Table 2.

Ultrasound Characteristics of Hemangiomas.

B Mode  Doppler Mode 
Proliferative phase  Proliferative phase 
Solid tumor  Hypervascular 
Homogenous stroma  High flow 
Involuting phase  Involuting phase 
Increased echogenicity  Hypovascular 
Heteroechoic stroma  High-flow vessels may persist 

In the involuting phase, however, the hypervascularized stroma of the proliferative phase is replaced by fibroadipose tissue, thereby changing the echogenicity, with most lesions now being hyperechoic and heterogenous. In most cases, there is a decrease in color Doppler flow, but high systolic flow may persist compared with normal skin.

Treatment with propranolol is effective in all growth phases of infantile hemangioma, but it is more effective if treatment is started during the proliferative phase. Bingham et al.20 reported the effectiveness of propranolol in 24 patients. At the end of treatment, a decrease in the size of infantile hemangioma was observed in 70% when treatment was given in the proliferative phase, whereas the reduction was 30% when treatment was given in the involuting phase.

Recent publications describe cutaneous ultrasound imaging as the method of choice for the objective assessment of treatment efficacy with propranolol in complex cases of infantile hemangioma (Fig. 3).21 Sans et al.19 used ultrasound imaging to assess the maximum thickness of infantile hemangioma and RI at baseline and after 60 days of treatment. They observed a decrease in the thickness associated with increased RI.21,22

Figure 3.

Infantile hemangioma on the right nostril treated with propanolol (courtesy of Dr. E. Baselga). A, Lesion prior to treatment. B, Echo Doppler image of hemangioma in proliferative phase; note the abundant vascularization. C, Clinical improvement of the nasal hemangioma. D, Decreased vascularization and thickness of the lesion.


In general, the minimum duration of treatment with propranolol should be at least 6 months to avoid regrowth of the tumor mass.23,24

Shi et al.17 assessed the ultrasound characteristics of each phase of infantile hemangioma to decide when to suspend treatment with propranolol. The assessments were carried out at baseline, at 3 months, and at 6 months of treatment. Treatment was suspended at 6 months if internal flow was no longer observed or if flow was normal. If flow was still present, treatment continued until flow signals disappeared or after 11 months of treatment, whichever came sooner.

Chang et al.25 reported a more extensive study of 679 children, in which lesion thickness was also used as the endpoint to decide on discontinuation of treatment. The authors discontinued treatment when the color Doppler evaluation had remained stable for 2 months.

Ultrasound Imaging of Vascular Malformations

Vascular malformations are a group of uncommon diseases that affect 0.5% of the population. They arise due to innate errors in embryonic development of blood vessels.

Low-Flow Vascular MalformationsVenous Malformations

Venous malformations are lesions formed from anomalous veins. These lesions have differing degrees of communication with adjacent veins.

Clinically, they present as bluish, soft, depressible tumor masses at a similar temperature to the rest of skin. They increase in size during Valsalva maneuvers. The can occur at any site, with the most frequent being the limbs, head, and neck. Although they are generally asymptomatic, during development, complications such as inflammation and thrombotic episodes may occur.26

Venous malformations are typically solitary lesions, but they can appear in multiple cutaneous and visceral forms. The presence of multifocal venous malformations is suggestive of a hereditary disorder or syndrome. Anomalies of the deep venous system are present in 47% of patients with very extensive venous malformations of the limbs and with Klippel-Trenaunay syndrome. Such findings require study of the deep venous system before initiating treatment.27

Ultrasound Imaging of Venous Malformations

Venous malformations typically present as anechoic or hypoechoic structures in B mode. Typically, venous malformations have scant fibrous stroma, but the walls of the isolated cavities range from very fine to very thick septa, and so up to 80% of these lesions have a mixed pattern of hypoechogenic cavities and hyperechogenic septa (Fig. 4),28 with the occasional presence of phleboliths.

Figure 4.

Venous malformation. A, Clinical appearance. B, Lesion X flow. Hyperechoic channels are apparent in the dermal-subdermal junction. This ultrasound mode can visualize very slow flows.


At times, venous malformations are filled with thrombotic material. In these cases, the ultrasound image appears as a soft tissue tumor with mixed echogenicity, making it difficult to differentiate between hemangiomas and other soft tissue tumors (Table 3).29

Table 3.

Ultrasound Characteristics of Venous Malformations.

B Mode  Doppler Mode 
Poorly delimited lesion  Slow venous flow (low velocities often hard to capture) 
Multiple hypoechoic and heterogenous cavities  Monophasic venous spectrum 
Compressible  Arterial and/or arterialized venous waves not detected 
Increase in size with Valsalva maneuver   
Presence of phleboliths   

In color Doppler mode, venous malformations have low and slow flows which are more marked with Valsalva maneuvers or compression-decompression. Venous malformations usually have a venous phasic spectrum with no arterial or arterialized venous flows within; these are more characteristic of arteriovenous malformations.

Capillary or Venular Vascular Malformations

Capillary malformations are those in which the predominant vessels are arterioles or postcapillary venules, that is, vessels with a small diameter and slow flow.

The port wine stain is present in 0.4% of newborn children, with no differences between sexes. In 83% of cases, the lesion is present on the head and neck, and interestingly seems to affect the right side of the face to a greater extent than the left. The capillary malformations become raised and darken with age, taking on cobblestone appearance. When the second branch of the trigeminal nerve is involved, the gingival and maxillary mucosa are involved, leading to separation of the teeth and an increased volume of the affected lip.30

Diagnosis is clinical, although when the capillary malformation is located on the face, MRI should be performed to rule out Sturge-Weber syndrome. In a recent study of 289 patients with capillary malformation in the facial region, 15 (5%) were diagnosed with Sturge-Weber syndrome. This risk increases still further if the capillary malformation is located in the first branch of the trigeminal nerve (7%-28%).31

Ultrasound Imaging of Capillary Malformations

In ultrasound imaging, the capillary malformations appear as hypoechoic dermal areas with limited features in B mode (Fig. 5). In Doppler mode, an increase in Doppler flow may appear within the lesion compared to the adjacent dermis (Table 4).32

Figure 5.

Capillary malformation. A, Clinical appearance. B, Color Doppler ultrasound. A hyperechoic area can be seen in the dermis with increased vascularization at focal points.

Table 4.

Ultrasound Characteristics of Capillary Malformations.

B Mode  Doppler Mode 
Increased thickness of the dermis with decreased echogenicity with respect to surrounding tissues (10%-30% are not visible)  Neither arterial nor venous flow apparent 

Troilius et al.32 presented a study in which 55 patients with port wine stains were assessed by ultrasound imaging. The objective of that study was to assess the depth of the capillary malformation and correlate this with response to treatment with pulsed dye laser, the treatment of choice in these patients.

Given that pulsed dye laser penetrates to a depth of around 0.65mm, the thickness of the capillary malformation may be predictive of response.5

Of the syndromes associated with capillary malformations, dominant autosomal syndromes arising from RAS/MAPK mutations are of particular interest.33 These syndromes have been linked to multifocal cutaneous capillary malformations associated with vascular malformations and arteriovenous fistulas in other territories.34

Kim et al.31 have recently described the presence of arterial flow in the capillary malformations detected by echo Doppler imaging, and they put forward the hypothesis that they could be a manifestation of an underlying atriovenous malformation.

Lymphatic malformations have been reported in individuals with RASA-1 mutations. In this case, cutaneous ultrasound could also be useful for diagnosis.34,35

Lymphatic Malformations

Lymphatic malformations are abnormalities in the embryogenesis of lymph vessels. They are classified according to size as microcystic (less than 2cm) and macrocystic (greater than 2cm) and according to their localization as axial or extra-axial.36

Ultrasound Imaging of Lymphatic Malformations

Lymphatic malformations have a very characteristic morphology. They are comprised of cystic cavities with shared hyperechoic walls. The material inside the lesion is anechoic, unless an intralesional hemorrhage has occurred. In this case, we can observe hyperechoic content with hyperechoic signals inside the lesion (Table 5).

Table 5.

Ultrasound Characteristics of Lymphatic Malformations.

B Mode  Doppler Mode 
Well-delimited tumors  Absent or if present between the walls 
Cystic cavities   
Hyperechoic walls   
Anechoic content (except in case of hemorrhage)   

From the hemodynamic point of view, in general, lymphatic malformations do not have Doppler flow and, if observed, this is usually present at the walls (Fig. 6).

Figure 6.

Lymphatic malformation. Color Doppler ultrasound Hyperechoic cystic areas can be seen with no blood flow within the lesion. The vessels are located in the walls of the malformation (arrow).


Differential diagnosis should be established with other low-flow vascular anomalies, which can present a similar appearance in the ultrasound study. In these cases, other methods such as MRI are needed for complete anatomical characterization and to determine the involvement of other structures.

The most widely used treatment for this type of malformation is sclerotherapy with agents such as tetracyclines or ethanol. These procedures are usually guided by ultrasound and fluoroscopic imaging.37,38

High-Flow Vascular Malformations: Arteriovenous Malformations

Arteriovenous malformations are rare in children compared to low-flow lesions. Cutaneous arteriovenous malformations, although always present from birth, are rarely symptomatic at birth or in the early years of life.

Clinically, they manifest as rose-colored macules that resemble an unremarkable capillary malformation. In this state, they are usually asymptomatic and remain this way until adolescence, and some lesions may last a lifetime. Some become more prominent, with more dilated vessels, with vibration and beating (fremitus).

Ultrasound Imaging of Arteriovenous Malformations

Ultrasound imaging is the first complementary diagnostic method in these types of lesions.38 In B mode, we observe tortuous, dilated and poorly defined vessels which, unlike those of hemangiomas, do not have the appearance of a tumor mass (Fig. 7).36

Figure 7.

Arteriovenous atrial malformation. A, Clinical appearance. B, Doppler ultrasound image of the lesion. Subdermal sponge-like areas with increased blood flow. C, Arteriography where arteriovenous malformations can be observed (arrow).


The Doppler study reveals vessels with high flow that are not usually observed in venous and lymphatic malformations (Table 6).

Table 6.

Ultrasound Characteristics of Arteriovenous Malformations.

B Mode  Doppler Mode 
Superficial in subcutaneous cell tissue with thickening of underlying skin  Arteriovenous shunts 
Vessels predominantly in the center of the lesion  Afferent arteries: high velocity flow 
Patterns  Efferent veins with arterialized flow 
Nest of anechoic conducts   
Anechoic pseudocyst   
Mixed with hyperechoic stroma and anechoic vascular channels of different size and diameter   

The technique that best enables us to visualize arteriovenous malformations is contrast-enhanced MRI. However, sometimes this technique may not permit venous drainage to be assessed and arteriography is necessary.37

Ultrasound Imaging of Other Vascular Anomalies

Ultrasound imaging of other vascular anomalies has been less extensively studied and their characteristics have been extracted from the isolated case reports available.

Kaposiform Hemangioendothelioma and Tufted Angioma

Kaposiform hemangioendothelioma and tufted angiomas appear to lie at the ends of the same tumor spectrum, with tufted hemangioma the surface variant and kaposiform hemangioendothelioma the deeper version.39

In view of their proliferative capacity, they can cause arteriovenous fistulas that may lead to vascular entrapment phenomena with hemolytic anemia, platelet destruction, and disseminated intravascular coagulation (Kasabach-Merritt phenomenon).40

In ultrasound imaging, high-flow hyperechoic lesions with a solid appearance have been reported in cases with cutaneous or mucosal expression.41

The presence of arteriovenous fistulas in these lesions is not necessarily associated with the presence of the Kasabach-Merritt phenomenon,42 as demonstrated in the series of 9 cases from the General Hospital in Valencia, Spain. Although arteriovenous fistulas were present in several of their cases, this phenomenon was not observed in any of them.


The ultrasound imaging reports of angiosarcomas refer to mammary lesions,43 which are rarely present in primary cutaneous angiosarcomas. The mammary variant of angiosarcoma has variable ultrasound characteristics and can appear either as hyperechoic lesions with lobulated borders or, less frequently, as lesions with mixed echogenicity with hyperechoic areas and irregular borders.44


At present, ultrasound is the first diagnostic study necessary in the assessment of vascular anomalies. This study should be requested by the dermatologist who coordinates the multidisciplinary management of these lesions.

Even if the dermatologist does not actually perform the procedure, he or she should know:

  • 1)

    What type of ultrasound imaging has been used (B mode, color and spectral Doppler)

  • 2)

    What data consistent with the suspected vascular anomaly can be found in the ultrasound report (for example, presence of channels or phleboliths in venous malformations).

  • 3)

    The limitations of ultrasound imaging for differentiating between these lesions and other similar ones (for example, in capillary malformations), What imaging techniques are complementary to ultrasound study (CT, MRI, conventional X-ray).

Dermatologists’ knowledge of ultrasound imaging would facilitate communication with the radiographer and enable better diagnosis and treatment for patients with vascular anomalies.

Conflicts of Interest

The authors declare that they have no conflicts of interest.

J. Dubois, L. Garel.
Imaging and therapeutic approach of hemangiomas and vascular malformations in the pediatric age group.
Pediatr Radiol, 29 (1999), pp. 879-893
M. Wassef, F. Blei, D. Adams, A. Alomari, E. Baselga, A. Berenstein, et al.
Vascular anomalies classification: Recommendations from the International Society for the Study of Vascular Anomalies.
Pediatrics, 136 (2015), pp. e203-e214
A. Hernandez Martín, A. Torrelo.
Rasopatías: trastornos del desarrollo con predisposición al cáncer y manifestaciones cutáneas.
Actas Dermosifilogr, 102 (2011), pp. 402-416
C. Léauté-Labrèze.
Infantile hemangioma: Update and treatment.
Arch Pediatr, 20 (2013), pp. 517-522
L. Renfro, R.G. Geronemus.
Anatomical differences of port-wine stains in response to treatment with the pulsed dye laser.
Arch Dermatol, 129 (1993), pp. 182-188
Mattila KA, Kervinen K, Kalajoki-Helmiö T, Lappalainen K, Vuola P, Lohi J, et al. An interdisciplinary specialist team leads to improved diagnostics and treatment for paediatric patients with vascular anomalies. Acta Paediatr. 2015;104:1109-16.
B. Echeverría, J. Borbujo, F. Alfageme.
The use of ultrasound imaging in dermatology.
Actas Dermosifiliogr, 105 (2014), pp. 887-890
S. Peer, X. Wortsman.
Sonographic anatomy of the skin appendages and adjacent structures.
1st ed, pp. 183-248
F. Alfageme.
Claves ecográficas de las lesiones vasculares más frecuentes.
1st ed, pp. 71-78
G. Roustan, I. Salgüero.
Aspectos ecográficos de las proliferaciones vasculares cutáneas.
Actual Med, 99 (2014), pp. 36-68
C. Kilcline, I. Frieden.
Infantile hemangiomas: How common are they? A systematic review of the medical literature.
Pediatr Dermatol, 25 (2008), pp. 168-173
C. Léauté-Labrèze, P. Hoeger, J. Mazereeuw-Hautier, L. Guibaud, E. Baselga, G. Posiunas, et al.
A randomized, controlled trial of oral propranolol in infantile hemangioma.
N Engl J Med, 372 (2015), pp. 735-746
Y. Ji, S. Chen, C. Xu, L. Li, B. Xiang.
The use of propranolol in the treatment of infantile haemangiomas: An update on potential mechanisms of action.
Br J Dermatol, 172 (2015), pp. 24-32
L. Gorospe, A. Royo, T. Berrocal, P. García-Raya, P. Moreno, J. Abelairas.
Imaging of orbital disorders in pediatric patients.
Eur Radiol, 13 (2003), pp. 2012-2026
P. Burrows, R. Robertson, J. Mulliken, D. Beardsley, J. Chaloupka, R. Ezekowitz, et al.
Cerebral vasculopathy and neurologic sequelae in infants with cervicofacial hemangioma: Report of eight patients.
Radiology, 207 (1998), pp. 601-607
A.M. Kutz, L. Aranibar, N. Lobos, X. Wortsman.
Color doppler ultrasound follow-up of infantile hemangiomas and peripheral vascularity in patients treated with propranolol.
Pediatr Dermatol, 32 (2015), pp. 468-475
H. Shi, H. Song, J. Wang, L. Xia, J. Yang, Y. Shang, et al.
Ultrasound in assessing the efficacy of propranolol therapy for infantile hemangiomas.
Ultrasound Med Biol, 40 (2014), pp. 2622-2629
O. Spierer, M. Neudorfer, I. Leibovitch, C. Stolovitch, A. Kessler.
Colour doppler ultrasound imaging findings in paediatric periocular and orbital haemangiomas.
Acta Ophthalmol, 90 (2012), pp. 727-732
V. Sans, E. de la Roque, J. Berge, N. Grenier, F. Boralevi, J. Mazereeuw-Hautier, et al.
Propranolol for severe infantile hemangiomas: Follow-up report.
Pediatrics, 124 (2009), pp. e423-e431
M. Bingham, B. Saltzman, N. Vo, J. Perkins.
Propranolol reduces infantile hemangioma volume and vessel density.
Otolaryngol Head Neck Surg, 147 (2012), pp. 338-344
A. Talaat, M. Elbasiouny, D. Elgendy, T. Elwakil.
Propranolol treatment of infantile hemangioma: Clinical and radiologic evaluations.
J Pediatr Surg, 47 (2012), pp. 707-714
C. Schiestl, K. Neuhaus, S. Zoller, U. Subotic, I. Forster-Kuebler, R. Michels, et al.
Efficacy and safety of propranolol as first-line treatment for infantile hemangiomas.
Eur J Pediatr, 170 (2011), pp. 493-501
R. Al Dhaybi, R. Superstein, A. Milet, J. Powell, J. Dubois, C. McCuaig, et al.
Treatment of periocular infantile hemangiomas with propranolol: Case series of 18 children.
Ophthalmology, 118 (2011), pp. 1184-1188
N. Shehata, J. Powell, J. Dubois, A. Hatami, E. Rousseau, S. Ondrejchak, et al.
Late rebound of infantile hemangioma after cessation of oral propranolol.
Pediatr Dermatol, 30 (2013), pp. 587-591
Chang L, Ye X, Qiu Y, Ma G, Jin Y, Chen H, et al. Is propranolol safe and effective for outpatient use for infantile hemangioma? A prospective study of 679 cases from one center in China. Ann Plast Surg. 2015en prensa.
S. Puig, B. Casati, A. Staudenherz, K. Paya.
Vascular low-flow malformations in children: Current concepts for classification, diagnosis and therapy.
Eur J Radiol, 53 (2005), pp. 35-45
I. Trop, J. Dubois, L. Guibaud.
Soft-tissue venous malformations in pediatric and young adult patients: Diagnosis with doppler US.
L. Abernethy.
Classification and imaging of vascular malformations in children.
Eur Radiol, 13 (2003), pp. 2483-2497
P. Redondo.
Vascular malformations (I). Concept, classification, pathogenesis and clinical features.
Actas Dermosifiliogr, 98 (2007), pp. 141-158
M. Piram, G. Lorette, D. Sirinelli.
Sturge-Weber syndrome in patients with facial port-wine stain.
Pediatr Dermatol, 29 (2012), pp. 32-37
C. Kim, C. Ko, K. Baker.
Histopathologic and ultrasound characteristics of cutaneous capillary malformations in a patient with capillary malformation-arteriovenous malformation syndrome.
Pediatr Dermatol, 32 (2015), pp. 128-131
A. Troilius, G. Svendsen, B. Ljunggren.
Ultrasound investigation of port wine stain.
Acta Derm Venereol, 80 (2000), pp. 196-199
L. Boon, J. Mulliken, M. Vikkula.
RASA1: Variable phenotype with capillary and arteriovenous malformations.
Curr Opin Genet Dev, 15 (2005), pp. 265-269
P. Burrows, M. Gonzalez-Garay, J. Rasmussen, M. Aldrich, R. Guilliod, E. Maus, et al.
Lymphatic abnormalities are associated with RASA1 gene mutations in mouse and man.
Proc Natl Acad, 21 (2013), pp. 8621-8626
B. Lee, Y. Kim, J. Seo.
Current concepts in lymphatic malformation.
Vasc Endovascular Surg, 39 (2005), pp. 67-81
J. Dubois, M. Alison.
Vascular anomalies: What a radiologist needs to know.
Pediatr Radiol, 40 (2010), pp. 895-905
R. Arnold, G. Chaudry.
Diagnostic imaging of vascular anomalies.
Clin Plast Surg, 38 (2011), pp. 21
A. Alomari, V. Karian, D. Lord, H. Padua, P. Burrows.
Percutaneous sclerotherapy for lymphatic malformations: A retrospective analysis of patient-evaluated improvement.
J Vasc Interv Radiol, 17 (2006), pp. 1639-1648
A. Osio, S. Fraitag, S. Hadj-Rabia, C. Bodemer, Y. de Prost, D. Hamel-Teillac.
Clinical spectrum of tufted angiomas in childhood: A report of 13 cases and a review of the literature.
Arch Dermatol, 146 (2010), pp. 758-763
G. Hall.
Kasabach-Merritt syndrome: Pathogenesis and management.
Br J Haematol, 112 (2001), pp. 851-862
L. Zukerberg, B. Nickoloff, S.W. Weiss.
Kaposiform hemangioendothelioma of infancy and childhood an aggressive neoplasm associated with Kasabach-Merritt syndrome and lymphangiomatosis.
Am J Surg Pathol, 17 (1993), pp. 321-328
A. Victoria Martínez, L. Cubells Sánchez, A. Esteve Martínez, J. Estela Cubellsa, I. Febrer Boscha, V. Alegre de Miquela, et al.
Angiomas en penacho en la infancia. Serie de 9 casos y revisión de la literatura.
An Pediatr, 83 (2015), pp. 201-208
S. Taghipour, N. Sefidrokh, K. Rahmani.
Primary breast angiosarcoma: Pathological and radiological diagnosis.
Malays J Med Sci, 21 (2014), pp. 66-70
R. Kaube, H. Sasaki, K. Shinozuka, Y. Fujisawa, T. Yanagawa, K. Yamagata, et al.
Angiosarcoma of the scalp diagnosed by the presence of neck inflammation: A case report.
Int J Oral Sci, 3 (2012), pp. 166-169

Please cite this article as: Alfageme Roldán F, Salgüero Fernández I, Zamanta Muñoz Garza F, Roustán Gullón G. Actualización en ecografía de las anomalías vasculares. Actas Dermosifiliogr. 2016;107:284–293.

Copyright © 2015. AEDV
Actas Dermo-Sifiliográficas (English Edition)

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